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April 1, 2026Journal of Periodontal Research2 citationsOpen Access

Artificial Intelligence in Periodontology: A Systematic Review

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ATAntonín TichýNWNils WernerHDHelena Dujic

Key Points

  • This review aims to examine the applications of artificial intelligence in periodontology, focusing on image and non-image based methods for diagnosing periodontitis.
  • Conducted a systematic review adhering to PRISMA guidance.
  • Reviewed 29 studies on deep learning for diagnosing periodontitis using imaging data.
  • Reviewed 65 studies on non-image based AI applications in periodontology.
  • Binary classification of periodontitis achieved accuracy of 81%-99% using panoramic radiographs.
  • Non-image based applications showed AUROC between 0.60 and 0.98 for diagnosis and risk stratification.
  • Generalizability limited by data diversity and lack of external testing.

Abstract

ABSTRACT Aim To provide a comprehensive review of artificial intelligence (AI) applications in periodontology, focusing (1) on deep learning for image‐based diagnosis of periodontitis and (2) on non‐image‐based AI applications across periodontal care. Methods This study adhered to PRISMA guidance. Six databases (PubMed, Scopus, Web of Science, Embase/Ovid, IEEE Xplore, and arXiv) were searched. The first review question (PICO 1) focused on applications of deep learning to human imaging data for diagnosing periodontitis, and the systematic review was followed by a modified QUADAS‐2 risk‐of‐bias (RoB) assessment. The second part (PICO 2) scoped AI applications in periodontology using non‐imaging data. Because of substantial heterogeneity in tasks, inputs, and outcomes, PICO 2 was synthesized narratively without formal RoB assessment. Results PICO 1 included 29 studies, predominantly using panoramic radiographs ( n = 21). Binary periodontitis classification achieved accuracies of 81%–99% on panoramic radiographs and 78% on CBCT, whereas staging/severity showed lower performance (accuracy 64%–91% in panoramic radiographs; 83% in intraoral radiographs with AUROC 0.84–0.93). Photograph‐based screening achieved AUROC 0.93. RoB was generally low, but applicability concerns were frequent, mainly because of single‐center datasets. PICO 2 included 65 studies, covering diagnosis and classification of periodontitis (AUROC 0.77–0.85), risk stratification and screening (AUROC 0.60–0.98), progression, and treatment outcome modeling (AUROC 0.58–0.89), oral‐systemic associations, biomarker identification, and clinical data mining using natural language processing, which achieved near‐perfect metrics. Conclusion Generalizability remains the key limitation across applications, driven by limited data diversity, inconsistent tasks/metrics, and scarce external testing. Future studies should prioritize multicenter evaluation, transparent reporting, and prospective assessments of workflow impact and patient‐related outcomes. Registration: PROSPERO identification number CRD420251128758.

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Cite This Study

Tichý et al. (2026) studied this question.

synapsesocial.com/papers/69ccb63f16edfba7beb87f45https://doi.org/10.1111/jre.70107
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